JPS61166385A - Treatment of rapeseed cake - Google Patents

Treatment of rapeseed cake

Info

Publication number
JPS61166385A
JPS61166385A JP60007056A JP705685A JPS61166385A JP S61166385 A JPS61166385 A JP S61166385A JP 60007056 A JP60007056 A JP 60007056A JP 705685 A JP705685 A JP 705685A JP S61166385 A JPS61166385 A JP S61166385A
Authority
JP
Japan
Prior art keywords
rapeseed meal
rapeseed
aspergillus
koji
rapeseed cake
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP60007056A
Other languages
Japanese (ja)
Other versions
JPH0616678B2 (en
Inventor
Hisao Yoshii
好井 久雄
Tetsuo Hino
日野 哲雄
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Ajinomoto Co Inc
Original Assignee
Ajinomoto Co Inc
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Filing date
Publication date
Application filed by Ajinomoto Co Inc filed Critical Ajinomoto Co Inc
Priority to JP60007056A priority Critical patent/JPH0616678B2/en
Publication of JPS61166385A publication Critical patent/JPS61166385A/en
Publication of JPH0616678B2 publication Critical patent/JPH0616678B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02PCLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P60/00Technologies relating to agriculture, livestock or agroalimentary industries
    • Y02P60/80Food processing, e.g. use of renewable energies or variable speed drives in handling, conveying or stacking
    • Y02P60/87Re-use of by-products of food processing for fodder production

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  • Fodder In General (AREA)
  • Seeds, Soups, And Other Foods (AREA)

Abstract

PURPOSE:To remove thioglucosinolate from rapeseed cake, without causing the lowering of nutrient value by the decomposition of effective lysine, etc., by inoculating rapeseed cake with fungi belonging to Aspergillus genus, and fermenting the cake. CONSTITUTION:Rapeseed cake left after the extraction of oil from rapeseed is controlled to a water-content of 25-40wt%, optionally sterilized by heating at 105 deg.C for about 15min, added with wheat bran, inoculated with spores of fungi belonging to Aspergillus genus (e.g. yellow Aspergillus such as Aspergillus sydowi) (10<5> spores per 1g of rapeseed cake), and fermented at 15-40 deg.C for 2-10 days.

Description

【発明の詳細な説明】 本発明は菜種粕の処理法に関するものであり、菜種粕中
に存在するチオゲルコシル−トを除去する方法に関する
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a method for treating rapeseed meal, and more particularly to a method for removing thiogelcosilate present in rapeseed meal.

菜llN子にはプロゴイトリン(Progojtr直n
)。
Progoitrin (Progojtr Naon) is used for NallNko.
).

グルコナピン(Gluconapin) sグルコブラ
シカナビン(Glucobrassjcanapjn)
などのチオゲルコシル−トがかなり多量に含有される。
Gluconapin Glucobrass canapjn
It contains quite a large amount of thiogelcosylates such as.

プロゴイトリンの加水分解生成物の一つであるゴイトリ
ノは抗甲状腺物質としてよく知られている。
Goitrino, one of the hydrolysis products of progoitrin, is well known as an antithyroid substance.

したがって、高水準のチオゲルコシル−トを含有するナ
タネ粕を動物飼料の蛋白質源として使う場合には使用量
を制限されている。チオゲルコシル−トの除去方法とし
て、高温通温加熱する方法(特開昭49−115885
号)、含硫アミノ酸を添加する方法(特開昭55−70
58号)、アルカリ性の条件で熱水抽出する方法(間u
stakas、 G、 C,、at al、、 J、^
mer。
Therefore, the amount of rapeseed meal containing high levels of thioglucosylate is limited when used as a protein source for animal feed. As a method for removing thiogelcosilate, there is a method of heating at high temperature (Japanese Patent Application Laid-Open No. 115885-1985).
No.), method of adding sulfur-containing amino acids (JP-A-55-70
No. 58), method of hot water extraction under alkaline conditions (No.
stakas, G, C,, at al,, J, ^
mer.

Oil Chew、 Soc、 45. 53〜58)
などが知られているが条件が苛酷であり、育効性リジン
の分解等が起こり、栄養低下の原因となっていた。本発
明者らは菜種相中のチオゲルコシル−トを除去する他の
方法を種々検討した結果、アスペルギルスI!lWを用
いて製麹することによりチオゲルコシル−トが分解され
ることを発見し本発明を完成するに至った。
Oil Chew, Soc, 45. 53-58)
Although such methods are known, the conditions are harsh and the growth-promoting lysine decomposes, causing nutritional decline. The present inventors investigated various other methods for removing thioglucosylate from the rapeseed phase, and found that Aspergillus I! The present invention was completed by discovering that thioglucosylate is decomposed by making koji using lW.

本発明で用いる菜種粕はBrassica napus
及びB、 cawpestrisなどの菜1iii子よ
り採油した粕であれば、品質、起源などどのようなもの
でもよい。採油方法については圧搾法、抽出法など特に
限定するものではない。
The rapeseed meal used in the present invention is Brassica napus.
and B. Any quality and origin may be used as long as the oil is extracted from rapeseed such as Cawpestris. The oil extraction method is not particularly limited, such as a pressing method or an extraction method.

アスペルギルス属菌としてはアスベルギルス−シ、ドウ
イー(Asp、 sydowi) 、アスペルギルス・
オリーゼ−(^sp、oryzae) 、アスペルギル
ス・ツヤ−(Asp、 5ojae)などの黄麹閉、ア
スペルギルス・ア7そり(Asp、 awa■ori)
 、アスペルギルス・カワチ(Asp、 kawach
ll) 、アスペルギルス・イヌイ(Asp、 1nu
ii)などの白麹菌、アスペルギルス・ニガー(Asp
、 niger)などの黒麹菌を挙げることができる。
Aspergillus spp. Aspergillus spp.
Oryzae (^sp, oryzae), yellow malts such as Aspergillus tsuya (Asp, 5ojae), Aspergillus a7sori (Asp, awa■ori)
, Aspergillus kawachi (Asp, kawach)
ll), Aspergillus inui (Asp, 1nu
ii), white koji mold, Aspergillus niger (Asp.
For example, black koji molds such as Aspergillus oryzae niger) can be mentioned.

特に黄麹菌に属する苗はチオグルコシダーゼ活性が優れ
ている。
In particular, seedlings belonging to Aspergillus oryzae have excellent thioglucosidase activity.

菜種粕に、アスペルギルス属菌をtf一種し、製麹する
。菜種粕を予め水分含ff125ないし40%、好まし
くは30ないし35%に調整した後接種すればよい。水
分調整後、必要に応じて105℃15分程度の蒸分根行
ない殺菌しておけば菌が好ましく増殖する。アスペルギ
ルス属菌の胞子を接iI後、15ないし40℃好ましく
は30ないし35℃にて、2日ないし10日間製麹する
ことによりチオゲルコシル−トが分解される。菌の接種
量は生育原料(菜種粕)1gに対し105程度の胞子数
であればよい。
TF type of Aspergillus bacteria is added to the rapeseed meal to make koji. The rapeseed meal may be inoculated after adjusting the moisture content to 125 to 40%, preferably 30 to 35%. After adjusting the moisture content, if necessary, sterilize by steaming at 105° C. for about 15 minutes, and the bacteria will preferably proliferate. After inoculation with Aspergillus spores, the thioglucosylate is decomposed by making koji at 15 to 40°C, preferably 30 to 35°C, for 2 to 10 days. The amount of bacteria to be inoculated should be about 105 spores per gram of the growth material (rapeseed meal).

更に菜種粕に皺を添加することによって菌糸がよく増殖
し蛋白質の分解が促進され、飼料として特に好ましいも
のが得られる。
Furthermore, by adding wrinkles to the rapeseed meal, mycelium grows well and protein decomposition is promoted, making it particularly desirable as feed.

実験例 φ16龍の試験管に下記組成(1を当り)の培地を3M
ずつ分注したものを液体培地として用いた。
Experimental example: 3M medium with the following composition (1 part) in a φ16 dragon test tube.
The aliquots were used as a liquid medium.

酵母エキス1 g 1K)IllPO42g s (N
H4)25O41gs NaNO30,9gs MgS
O44HsO0,9g。
Yeast extract 1g 1K) IllPO42g s (N
H4) 25O41gs NaNO30,9gs MgS
O44HsO0.9g.

CaCl20.3 g s  Fructose 5 
g 、  Mcllvainebuyer pH8,5
200M  Sinigrin (東京化成製GR) 
 1 g、 pH8,5 この液体培地で、30℃、2週間表1に示すカビを培養
後、残存Sinigrinffiをグルコスタット(g
沢メディカルサプライ■発売)によって求め、逆にSi
nigrinの消費率すらThioglucosida
se活性を推定した。結果を表1に示す。
CaCl20.3 g s Fructose 5
g, Mcllvainebuyer pH 8,5
200M Sinigrin (GR made by Tokyo Kasei)
1 g, pH 8.5 After culturing the molds shown in Table 1 in this liquid medium at 30°C for 2 weeks, the remaining Sinigrinffi was treated with glucostat (g
Sawa Medical Supply (released)), and conversely Si
Even the consumption rate of nigrin is Thioglucosida.
se activity was estimated. The results are shown in Table 1.

表1 カビのSinigrin消費 培堆中のSinigrinは、カビの分詔する酵素(S
inigrlnase、一般的にはβ−丁hioglu
cosidase)によってalkyl −1sot旧
ocyanateとグルコースおよび酸性硫酸カリウム
を生成し、グルコースはカビ生育の炭素源として利用さ
れる。したがってSinfgrin消費率はThiog
lucosidase活性の指標とみなし得る。Asp
、  sydowi、 Asp、 oryzae、 A
sp、 5ojaeは、いずれもほとんど100%のS
inigrin消費率を示し、Th10g1LICO8
idase活性が最も強力なことを認めた。
Table 1 Sinigrin consumed by fungi Sinigrin in the culture compost is an enzyme (S
inigrlnase, commonly β-dhioglu
cosidase) to produce alkyl-1sot ocyanate, glucose and acidic potassium sulfate, and glucose is used as a carbon source for mold growth. Therefore, the Sinfgrin consumption rate is Thiog
It can be regarded as an indicator of lucosidase activity. Asp
, sydowi, Asp, oryzae, A
sp, 5ojae are both almost 100% S
Inigrin consumption rate is shown, Th10g1LICO8
It was found that idase activity was the most powerful.

実施例1 スウェーデン産菜種をコーヒーミルで粗く粉砕した後、
ヘキサンで脱脂してナタネ粕を得た。
Example 1 After coarsely grinding Swedish rapeseed with a coffee mill,
The rapeseed meal was obtained by degreasing with hexane.

ナタネ拍に撒水して水分31.619Aに調整した後、
105℃、15分の蒸煮を行ない、30 ”Cにまで冷
却してから、表2に示すカビの胞子を接種し、シャーレ
内で、30”C13〜7日間製麹を行なった。白カラン
より調製したミロシナーゼ(Thioglucosid
ase)を加えてナタネ粕中のグルコシル−トを加水分
解し、これをチオ尿素化したものと、生成cottrt
n(5−vinyloxazolidine −2−t
hion以下roZTJと略記)のUV吸収を測定した
。前者(1sothiocyanateとOZTを併せ
たもの、即ち全ゲルコシル−トの加水分解物)は、3−
 butenylisothiocyanate(以下
r3−BITCJと略記)として、後者はOZTあるい
はProgoitrinの量として表示した*(Wet
ter & voung、 J、 Amer。
After watering the rapeseed and adjusting the moisture content to 31.619A,
After steaming at 105°C for 15 minutes and cooling to 30''C, mold spores shown in Table 2 were inoculated, and koji was made in a petri dish at 30''C for 13 to 7 days. Myrosinase (Thioglucosid) prepared from white caran
glucosylate in rapeseed meal is hydrolyzed by adding acetate) to thiourea, and the resulting cottrt
n(5-vinyloxazolidine-2-t
hion (hereinafter abbreviated as roZTJ) was measured. The former (a combination of 1-sothiocyanate and OZT, i.e., a hydrolyzate of total gelcosilate) is 3-
butenylisothiocyanate (hereinafter abbreviated as r3-BITCJ), and the latter was expressed as the amount of OZT or Progoitrin* (Wet
ter & voung, J. Amer.

0目 Chew、 Soc、、  53.  1 82
 〜1 84)別に、ナタネ粕に上述のミロシナーゼを
作用させ、解裂グルコースをグルコスタットによって測
定し、 progottrtn量として表示することも
併せ行なった。(Van Etten et at、、
 J、 Agr、 FoodChe+s、、 22.4
84〜487)蒸煮ナタネ粕、出麹の水分は140℃、
1時間の乾燥法、全糖は2.5%塩酸中で3時間加水分
解後、生成グルコースをグルコスタットで測定して求め
た。全窒素はケルチック法、ホルモール窒素は試料の熱
湯抽出液を作製し、常法によった。
0th Chew, Soc,, 53. 1 82
-184) Separately, the above-mentioned myrosinase was applied to rapeseed meal, and the cleaved glucose was measured using a glucostat and expressed as the amount of progottrtn. (Van Etten et at...
J, Agr, FoodChe+s,, 22.4
84-487) The moisture content of steamed rapeseed meal and brewed koji is 140℃,
The total sugar was determined by a 1-hour drying method, and the resulting glucose was measured using a glucostat after hydrolysis in 2.5% hydrochloric acid for 3 hours. Total nitrogen was determined by the Keltic method, and formol nitrogen was determined by preparing a boiling water extract of the sample and using a conventional method.

また、油分はエーテルを用いてンックスレー抽出器で抽
出を行ない、秤量によって求めた。
In addition, the oil content was extracted with ether using a Nxley extractor and determined by weighing.

^sp、 sydowl (S −7およびS−10)
の麹におけるゲルコシル−トの消長を表2に示した。
^sp, sydowl (S-7 and S-10)
Table 2 shows the evolution of gelcosilate in the koji.

表2 ^Sp、 sydowtを使用した菜種粕麹にお
けるゲルコシル−トの消長(乾物中の%) ()内は蒸煮ナタネ相中の含量を100としたときの%
ナタネ粕中のゲルコシル−トの主体をしめるProgo
iLrin (OZ T結合態として測定)は蒸煮ナタ
ネ粕に1.32%含有されるが、5日後のS−7の出麹
では0.31%(蒸煮ナタネ粕中の23.5%)に、S
 −10の出麹では0.54%(同40.9%)に減少
し、逆にOZT (遊jll)は蒸煮ナタネ粕に0.0
8%含まれたものが出麹S−7,5−10では0.37
%、0゜14%に増加していた。これは^sp、 sy
dowiの生成するTh iog Iucos 1da
seによって、Progoitrin−+ OZ T 
(Goitrln)への加水分解がかなり行なわれたこ
とを示すものであるが、遊@ OZ Tと結合f!!0
ZT(残留Pro(oitrin中のもの)を併せたO
ZTの総量は、ナタネ粕中のものに比べて著しい減少は
みられなかった(S−7麹で95.8%、5−10麹で
64.6%残存)。
Table 2 Changes and changes of gelcosilte in rapeseed meal koji using ^Sp, sydowt (% of dry matter) Figures in parentheses are percentages when the content in the steamed rapeseed phase is taken as 100.
Progo, which is the main component of gelcosilte in rapeseed meal
iLrin (measured as OZ T bonded form) is contained in 1.32% in steamed rapeseed meal, but in the S-7 de-koji after 5 days, it is 0.31% (23.5% in steamed rapeseed meal). S
-10 koji drops to 0.54% (40.9%), and conversely, OZT (play jll) decreases to 0.0% in steamed rapeseed meal.
The one containing 8% is 0.37 for Dekoji S-7, 5-10.
%, it had increased to 0°14%. This is ^sp, sy
Thiog Iucos 1da produced by dowi
Progoitrin-+ OZ T by se
This indicates that the hydrolysis to (Goitrln) was considerably carried out, but the combination with free@OZ T and f! ! 0
ZT (O combined with residual Pro (in oitrin)
The total amount of ZT was not significantly reduced compared to that in rapeseed meal (95.8% remaining in S-7 koji and 64.6% remaining in 5-10 koji).

つまり、ナタネ粕中の抗甲吠腺物質として有害なGoi
trinの除去の効果は少ないことがわかった。
In other words, Goi, which is harmful as an anti-koro gland substance in rapeseed meal,
It was found that the effect of removing trin is small.

3−BITCはナタネ粕中のGluconapinおよ
びProgoitrlnを併せたもの、すなわち全ゲル
コシル−トをこのインチオシアネートとして表わしたも
ので、上述のProgoitrin同様、Glucon
apin−+ 3−BITCへの加水分解はかなり行な
われるが、3−BITCの総量が、S−7の出麹では蒸
煮ナタネ相に対して60%、5−10の出麹54.5%
にとどまる点から、3−BITCの杯数あるいは分解消
失は比較的少ないと思われる。
3-BITC is a combination of Gluconapin and Progoitrln in rapeseed meal, that is, all the gelcosilates are expressed as inthiocyanate, and like Progoitrin mentioned above, Gluconapin
Hydrolysis to apin-+ 3-BITC takes place considerably, but the total amount of 3-BITC is 60% of the steamed rapeseed phase in the S-7 de-koji and 54.5% in the 5-10 de-koji phase.
It is thought that the number of cups or decomposition loss of 3-BITC is relatively small.

なお、表2にはグルコースの定量による製麹中のゲルコ
シル−ト、と(にProgoitrinの消長追跡の結
果も示したが、蒸璧ナタネ粕にかな妙の量の遊離グルコ
ースが含まれるため、やや不明確ではあるが、O2T測
定結果からの消長とほぼ一致していた。
In addition, Table 2 also shows the results of tracking the changes of gelcosilt and progoitrin in koji made by quantifying glucose, but since steamed rapeseed meal contains a considerable amount of free glucose, Although unclear, it was almost consistent with the decline and decline from the O2T measurement results.

実施例2 ^sp、 oryzae (S −3)を用い実施側型
と同様にしてナタネ粕におけるゲルコシル−トの消長を
測定した。結果を表3に示した。
Example 2 The growth and development of gelcosilate in rapeseed meal was measured using ^sp, oryzae (S-3) in the same manner as in the experimental type. The results are shown in Table 3.

蒸煮ナタネ相申に1.75%含まれるProgoitr
inは3日後の出麹で全く検出されなかった。また、P
rogoitrinの解裂によって生成した遊離OZT
は表3  Asp、 oryzaeを使用した菜種粕麹
におけるゲルコシル−トの消長 蒸煮ナタネ粕中よりわずかに増加して (0,17%)
はいるが、O2T総琶は蒸煮ナタネ粕中の29.3%に
減少していた。さらに、7日後の出麹では遊1i11i
0ZTは0.03%に、OZT総量は5.2%に減少し
ていた。このことは、Asp、 oryzaeの製麹で
は、3日後に、すでにこのカビのThioglu−co
sidaseによってProgoitrlnがすべてG
oitrnにまで解裂されるとともに、Go[trin
がさらに完全に分解、消失することがわかった。
Progoitr contained in steamed rapeseed at 1.75%
In was not detected at all in the koji produced after 3 days. Also, P
Free OZT generated by cleavage of rogoitrin
Table 3: Effect of gelcosilte in rapeseed meal koji using Asp, oryzae Slightly increased (0.17%) compared to that in long-steamed rapeseed meal
However, the O2T total was reduced to 29.3% of the steamed rapeseed meal. Furthermore, after 7 days, Yu1i11i
OZT decreased to 0.03%, and the total amount of OZT decreased to 5.2%. This means that when Asp oryzae koji is made, Thioglu-co of this mold is already present after 3 days.
Progoitrln is all G by sidase
As well as being disbanded to oitrn, Go[trin
was found to further completely decompose and disappear.

3−BITCの消長から、ナタネ粕中のGluco−n
apinあるいは全ゲルコシル−トは3日後の出麹です
でに完全にインチオシアネートにまで分解され、さらに
7日後の出麹ではこのインチオシアネートもほとんど完
全に消失することがわかった。
3-Gluco-n in rapeseed meal from the fluctuation of BITC
It was found that apin or total gelcosylate was already completely decomposed into inthiocyanate after 3 days of fermentation, and that this inthiocyanate had almost completely disappeared after 7 days of fermentation.

以上の結果から、Asp、 oryzaeを用いた製麹
により、ナタネ粕中のチオゲルコシル−ト、とくに抗甲
吠腺物質Goitrinを含むProgoitrinを
完全に除去することが可能なことを児い出した。
From the above results, we have found that it is possible to completely remove thiogelcosylate from rapeseed meal, especially progoitrin, which contains the anti-kolin substance Goitrin, by making koji using Asp and oryzae.

なお、表3中に示したように、製麹中にホルモール窒素
あるいは蛋白質の増加がみられた。前者は^sp、 o
ryzaeのプロテアーゼの作用、また後者はこのカビ
の菌体増加によるものとみなされ、チオゲルコシル−ト
の除去とともにナタネ粕の飼料価値の向上が期待できる
As shown in Table 3, an increase in formol nitrogen or protein was observed during koji making. The former is ^sp, o
The latter is considered to be due to the action of the protease of S. ryzae, and the latter is due to the increase in bacterial cells of this fungus, and it is expected that the feed value of the rapeseed meal will be improved along with the removal of thiogelcosilate.

実施例3 表4は生菜種粕または蒸煮菜種粕を製麹原料とし、実験
例のAsp、 oryzae (S −3)または市販
種麹を接種し4日間製麹を行なった際のゲルコシル−ト
の消長を示したものである。
Example 3 Table 4 shows the results of gelcosilt when raw rapeseed meal or steamed rapeseed meal was used as the raw material for making koji, inoculated with Asp, oryzae (S-3) of the experimental example, or commercially available seed koji, and koji making was carried out for 4 days. This shows the rise and fall.

表4−1 (蒸煮せずに製麹) 京(235,245,255nm)  本草(230,
245,200nm>本水車ヒグチモヤシ使用表4−2
 (蒸煮したものを製麹) 京(235,245,255nm)水車(230,24
5,2(tons>本本本ヒグチモヤシ使用いずれも完
全にナタネ粕中のゲルコシル−トが除去されていた。
Table 4-1 (Koji made without steaming) Kyo (235, 245, 255 nm) Honso (230,
245,200nm>Hon-turbine Higuchi bean sprout usage table 4-2
(Making koji from steamed food) Kyoto (235, 245, 255 nm) Waterwheel (230, 24
Gelcosilt in the rapeseed meal was completely removed in both cases using Higuchi bean sprouts.

実施例4 表5は蒸煮菜種粕に皺を5fff量%および10重量%
添加したものをaiI原料とし、実験例のAsp。
Example 4 Table 5 shows wrinkles added to steamed rapeseed meal by 5fff amount% and 10% by weight.
The added material was used as the aiI raw material, and Asp was used as the experimental example.

oryzae (S −3)を接種し4日間製麹した際
のゲルコシル−トの消長を示したものである。
This figure shows the evolution of gelcosilate when koji was made after inoculating S. oryzae (S-3) for 4 days.

表     5 京(230,245,200nm)    水車 ^s
perg[l Ius oryzae S−3使用いず
れも完全にナタネ粕中のゲルコシル−トは除去されてい
た。これらの菜種粕は蛋白質の分解が進んでいることが
示唆された。
Table 5 Quintillion (230, 245, 200nm) Water turbine ^s
Gelcosilt in the rapeseed meal was completely removed in all cases using perg[Ius oryzae S-3. It was suggested that protein decomposition in these rapeseed meal was progressing.

Claims (2)

【特許請求の範囲】[Claims] (1)菜種粕にアスペルギルス属菌を接種し、製麹する
ことを特徴とする菜種粕の処理法。
(1) A method for processing rapeseed meal, which comprises inoculating the rapeseed meal with Aspergillus bacteria and making koji.
(2)アスペルギルス属菌が、黄麹菌である特許請求の
範囲第(1)項記載の処理法。
(2) The treatment method according to claim (1), wherein the Aspergillus fungus is Aspergillus oryzae.
JP60007056A 1985-01-18 1985-01-18 How to treat rapeseed meal Expired - Lifetime JPH0616678B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP60007056A JPH0616678B2 (en) 1985-01-18 1985-01-18 How to treat rapeseed meal

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Application Number Priority Date Filing Date Title
JP60007056A JPH0616678B2 (en) 1985-01-18 1985-01-18 How to treat rapeseed meal

Publications (2)

Publication Number Publication Date
JPS61166385A true JPS61166385A (en) 1986-07-28
JPH0616678B2 JPH0616678B2 (en) 1994-03-09

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2010011760A (en) * 2008-07-02 2010-01-21 Nisshin Oillio Group Ltd Method for producing high protein low glucosinolate rapeseed meal
CN105628838A (en) * 2015-12-24 2016-06-01 吉林福康药业股份有限公司 Method for detecting indigowoad root in Pudilan Xiaoyan tablets
CN113229399A (en) * 2021-04-28 2021-08-10 四川生力源生物工程有限公司 Method for biologically degrading rapeseed meal toxin and improving nutritive value thereof
CN114698726A (en) * 2022-04-01 2022-07-05 播恩集团股份有限公司 Low-toxin high-nutrition rapeseed meal, method for degrading toxins in rapeseed meal through segmented fermentation and application

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2010011760A (en) * 2008-07-02 2010-01-21 Nisshin Oillio Group Ltd Method for producing high protein low glucosinolate rapeseed meal
CN105628838A (en) * 2015-12-24 2016-06-01 吉林福康药业股份有限公司 Method for detecting indigowoad root in Pudilan Xiaoyan tablets
CN113229399A (en) * 2021-04-28 2021-08-10 四川生力源生物工程有限公司 Method for biologically degrading rapeseed meal toxin and improving nutritive value thereof
CN113229399B (en) * 2021-04-28 2024-02-02 四川生力源生物工程有限公司 Method for biologically degrading rapeseed meal toxin and improving nutritive value of rapeseed meal toxin
CN114698726A (en) * 2022-04-01 2022-07-05 播恩集团股份有限公司 Low-toxin high-nutrition rapeseed meal, method for degrading toxins in rapeseed meal through segmented fermentation and application
CN114698726B (en) * 2022-04-01 2022-11-25 播恩集团股份有限公司 Low-toxin high-nutrition rapeseed meal, method for degrading toxins of rapeseed meal through segmented fermentation and application

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Publication number Publication date
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